if err != nil || len(b) != len(toWrite) {
			continue
		}

		err = p.storage.Delete(context.Background(), minioMetaTmpBucket, fn, DeleteOptions{
			Recursive: false,
			Immediate: false,
		})

		if err == nil {
			logger.Event(context.Background(), "healthcheck",
				"node(%s): Read/Write/Delete successful, bringing drive %s online", globalLocalNodeName, p.storage.String())

) {
	wrappedHandler := func(prev, curr T, event model.Event) error {
		curr = informer.Get(curr.GetName(), curr.GetNamespace())
		if controllers.IsNil(curr) {
			// this can happen when an immediate delete after update
			// the delete event can be handled later
			return nil
		}
		return handler(prev, curr, event)
	}
	// Pre-build our metric types to avoid recompute them on each event

	case 0:
		return false // ±0
	case 0xff:
		return false // ±inf
	case 0xfe:
		return false // exponent is not representable
	default:
		return true
	}
}

// check if an immediate can be directly encoded into an ARM's instruction.
func isARMImmRot(v uint32) bool {
	for i := 0; i < 16; i++ {
		if v&^0xff == 0 {
			return true
		}
		v = v<<2 | v>>30
	}

	return false

				},
				Provisioner: "kubernetes.io/glusterfs",
			},
			expected: []metav1.TableRow{{Cells: []interface{}{"sc1", "kubernetes.io/glusterfs", "Delete",
				"Immediate", false, "0s"}}},
		},
		{
			sc: storage.StorageClass{
				ObjectMeta: metav1.ObjectMeta{
					Name:              "sc2",
					CreationTimestamp: metav1.Time{Time: time.Now().Add(-3e11)},
				},

    else -> error("Unexpected ${this::class}")
}

/**
 * N.B. We don't use [containingClassOrObject] because it works only for [KtDeclaration]s,
 * and also check only the immediate (direct) parent.
 *
 * For this function, we want to find the parent [KtClassOrObject] declaration no matter
 * how far it is from the element.
 */

// example, is an opcode byte (z[0]) then an asmando (which is some kind of
// encoded addressing mode for the Yml arg), and then a single immediate byte.
// Zilo_m is the same but a long (32-bit) immediate.
var optab =
// as, ytab, andproto, opcode
[...]Optab{
	{obj.AXXX, nil, 0, opBytes{}},
	{AAAA, ynone, P32, opBytes{0x37}},
	{AAAD, ynone, P32, opBytes{0xd5, 0x0a}},

		}
		c.watcherIdx++
	}()

	if !addedWatcher {
		// Watcher isn't really started at this point, so it's safe to just drop it.
		//
		// We're simulating the immediate watch termination, which boils down to simply
		// closing the watcher.
		return newImmediateCloseWatcher(), nil
	}

	go watcher.processInterval(ctx, cacheInterval, requiredResourceVersion)
	return watcher, nil

	limiterEvent limiterEvent

	// gcMarkWorkerMode is the mode for the next mark worker to run in.
	// That is, this is used to communicate with the worker goroutine
	// selected for immediate execution by
	// gcController.findRunnableGCWorker. When scheduling other goroutines,
	// this field must be set to gcMarkWorkerNotWorker.
	gcMarkWorkerMode gcMarkWorkerMode

    checkNotNull(executor, "Executor was null.");
    // Checking isDone and listeners != TOMBSTONE may seem redundant, but our contract for
    // addListener says that listeners execute 'immediate' if the future isDone(). However, our
    // protocol for completing a future is to assign the value field (which sets isDone to true) and

    checkNotNull(executor, "Executor was null.");
    // Checking isDone and listeners != TOMBSTONE may seem redundant, but our contract for
    // addListener says that listeners execute 'immediate' if the future isDone(). However, our
    // protocol for completing a future is to assign the value field (which sets isDone to true) and